Optimising Runtime Safety Analysis Efficiency for Self-Organising Systems

Dominik Klumpp, Axel Habermaier, Benedikt Eberhardinger, H. Seebach
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引用次数: 1

Abstract

Self-organising resource-flow systems typically havea high tolerance for component faults: When a component fails, the system can use another component of the same type instead. However, this redundancy is eventually exhausted: If enoughcomponents fail, they can no longer be replaced and the systemceases to function. An analysis of these self-organisation limitsis essential to assess the system's safety but difficult to performat design time because the system's structure and behaviour arehard to predict. By contrast, runtime analyses are subject to highperformance demands. This paper presents several techniquesthat significantly reduce analysis time in order to facilitate safetyanalyses at runtime. We model a self-organising system producingpersonalised medicine and use it to evaluate these techniques.
自组织系统运行时安全分析效率优化
自组织资源流系统通常对组件故障具有很高的容忍度:当一个组件故障时,系统可以使用另一个相同类型的组件代替。然而,这种冗余最终会耗尽:如果有足够多的组件失效,它们就不能再被替换,系统就会停止运行。对这些自组织限制的分析对于评估系统的安全性至关重要,但由于系统的结构和行为难以预测,因此很难在设计时执行。相比之下,运行时分析受制于高性能需求。本文介绍了几种显著减少分析时间的技术,以促进运行时的安全分析。我们建立了一个生产个性化医疗的自组织系统模型,并用它来评估这些技术。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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